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Fast resonant target vibrating wire scanner for photon beam.

S G Arutunian¹, M Chung², G S Harutyunyan¹

¹Yerevan Physics Institute, Alikhanian Br. St. 2, Yerevan 0036, Armenia.

The Review of Scientific Instruments

|March 3, 2016

Summary

We developed a novel resonant target vibrating wire scanner for fast beam profile measurements. This method effectively reduces background noise, improving accuracy for various particle beams.

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Area of Science:

Particle accelerators and beam diagnostics
High-energy physics instrumentation
Photonics and optical sensing

Background:

Accurate beam profile measurement is crucial for accelerator performance and research.
Traditional wire scanners face limitations in high-background environments.
Existing methods struggle with speed and precision for certain beam types.

Purpose of the Study:

To introduce a new wire scanner technology for enhanced beam profile measurements.
To address the challenge of background noise in particle beam diagnostics.
To develop a versatile method applicable to diverse particle beams.

Main Methods:

Utilizing a vibrating wire as a resonant scattering target.
Employing synchronous detection synchronized with wire oscillation.
Applying the technique to photon beam profiling using a fast photodiode.

Main Results:

Demonstrated fast beam profiling capabilities.
Achieved significant reduction in background signal interference.
Successfully applied to photon beam measurements.

Conclusions:

The resonant target vibrating wire scanner offers a robust solution for beam diagnostics.
The method shows potential for profiling various particle beams including neutrons, protons, electrons, and ions.
This innovation advances the field of particle beam measurement technology.